Machine room control method, device, electronic device, storage medium

Abstract

The present invention discloses a computer room control method, device, electronic device, and storage medium. The method includes: determining to independently or coupledly operate the ground source heat pump system, boiler heating system, and refrigeration system of the computer room according to the refrigeration heat release amount and heating heat absorption amount of the overall computer room; when the ground source heat pump system operates independently, matching the number of on - line cold and heat units of the ground source heat pump system according to the cold and heat demands, and turning on the cold and heat units with the number of on - line cold and heat units; when the refrigeration system operates independently, matching the number of on - line refrigeration units of the refrigeration system according to the cooling load demand, and turning on the refrigeration units with the number of on - line refrigeration units. The present invention realizes the coordinated management of multiple energy supply systems. At the same time, the energy consumption of the present invention can meet the system requirements while avoiding wasting energy by turning on too many units.

Description

Technical Field

[0001] The present invention relates to the technical field related to computer rooms, and particularly to a computer room control method, device, electronic device, and storage medium. Background Art

[0002] In a multi-energy coupling efficient computer room, with the development of technology, various energy supply systems complement each other. Commonly seen are ground source heat pump systems, refrigeration systems, and boiler heating systems. Among them, the ground source heat pump system is used for heating or refrigeration, the refrigeration system is used for refrigeration, and the boiler heating system is used for heating.

[0003] However, in existing computer rooms, there is a lack of coordinated management between multiple energy supply systems. At the same time, there are multiple units in the ground source heat pump system, refrigeration system, and boiler heating system. All units are turned on when the existing computer room is in use, resulting in too high energy efficiency. Summary of the Invention

[0004] Based on this, in view of the technical problem that the existing computer rooms lack coordinated management between multiple energy supply systems and all units are turned on during use, resulting in too high energy efficiency, it is necessary to provide a computer room control method, device, electronic device, and storage medium.

[0005] The present invention provides a computer room control method, including:

[0006] Determine whether the ground source heat pump system, boiler heating system, and refrigeration system in the computer room operate independently or in a coupled manner according to the overall refrigeration heat release and heating heat absorption of the computer room;

[0007] When the ground source heat pump system operates independently, match the number of hot and cold units turned on in the ground source heat pump system according to the hot and cold demands, and turn on the hot and cold units with the number of hot and cold units turned on;

[0008] When the refrigeration system operates independently, match the number of refrigeration units turned on in the refrigeration system according to the cooling load demand, and turn on the refrigeration units with the number of refrigeration units turned on.

[0009] Further, the determining whether the ground source heat pump system, boiler heating system, and refrigeration system in the computer room operate independently or in a coupled manner according to the overall refrigeration heat release and heating heat absorption of the computer room includes:

[0010] When the refrigeration heat release is greater than the heating heat absorption, then during winter heating, give priority to using the ground source heat pump system to operate independently for heating. When the heat load of the ground source heat pump system cannot meet the system load demand, then enable the boiler heating system to operate in a coupled manner with the ground source heat pump system for heating. During summer refrigeration, use the ground source heat pump system and the refrigeration system to operate in a coupled manner for refrigeration;

[0011] When the refrigeration heat release is less than the heating heat absorption, during summer refrigeration, the ground source heat pump system is preferentially used to operate independently for heating. When the cooling load of the ground source heat pump system cannot meet the system load demand, the refrigeration system and the ground source heat pump system are coupled to operate for refrigeration. During winter heating, the ground source heat pump system and the boiler heating system are coupled to operate for heating.

[0012] Further, matching the number of operating cold and heat units of the ground source heat pump system according to the cold and heat demands includes:

[0013] Obtain the corresponding relationship between the unit load rate and the energy consumption ratio of the cold and heat units of the ground source heat pump system;

[0014] Calculate the unit load rate corresponding to each opening number according to the cold and heat demands;

[0015] According to the corresponding relationship, calculate the energy consumption ratio corresponding to the unit load rate of each opening number, and select the opening number corresponding to the unit load rate with the maximum energy consumption ratio as the number of operating cold and heat units of the ground source heat pump system.

[0016] Even further, calculating the unit load rate corresponding to each opening number according to the cold and heat demands includes:

[0017] Predict the average cold and heat power prediction value within a preset time period according to historical data;

[0018] Calculate the unit load rate corresponding to each opening number as: Bi = EMRQ 冷热 / (i * EMR 额 ), where Bi is the unit load rate corresponding to the opening number i, EMRQ 冷热 is the average cold and heat power prediction value, i is the opening number, and EMR 额 is the rated power of a single cold and heat unit, and when Bi > 1, set Bi = 0.

[0019] Further, matching the number of operating refrigeration units of the refrigeration system according to the cold load demand includes:

[0020] Obtain the corresponding relationship between the unit load rate and the energy consumption ratio of the refrigeration units of the refrigeration system;

[0021] Calculate the unit load rate corresponding to each opening number according to the cold load demand;

[0022] According to the corresponding relationship, calculate the energy consumption ratio corresponding to the unit load rate of each opening number, and select the opening number corresponding to the unit load rate with the maximum energy consumption ratio as the number of operating refrigeration units of the refrigeration system.

[0023] Further, calculating the unit load factor corresponding to each opening quantity according to the cooling load demand includes:

[0024] Predicting the average predicted cooling power value within a preset time period according to historical data;

[0025] Calculating the unit load factor corresponding to each opening quantity as: Ci = EMRQ 冷 / (i * EMR 额 ), where Ci is the unit load factor corresponding to the opening quantity i, EMRQ 冷 is the average predicted cooling power value, i is the opening quantity, and EMR 额 is the rated power of a single refrigeration unit, and when Ci > 1, set Ci = 0.

[0026] Still further, it further includes:

[0027] When the boiler heating system operates independently, matching the number of boiler heating units started in the boiler heating system according to the heat load demand, and starting the boiler heating units with the number of boiler heating units started.

[0028] The present invention provides a computer room control device, including:

[0029] A total control module, configured to determine to use the ground source heat pump system, the boiler heating system, and the refrigeration system to operate independently or in a coupled manner according to the cooling heat release amount and the heating heat absorption amount of the entire computer room;

[0030] A ground source heat pump system control module, configured to match the number of cold and heat units started in the ground source heat pump system according to the cold and heat demands when the ground source heat pump system operates independently, and start the cold and heat units with the number of cold and heat units started;

[0031] A refrigeration system control module, configured to match the number of refrigeration units started in the refrigeration system according to the cooling load demand when the refrigeration system operates independently, and start the refrigeration units with the number of refrigeration units started.

[0032] The present invention provides an electronic device, including:

[0033] At least one processor; and,

[0034] A memory communicatively connected to at least one of the processors; wherein,

[0035] The memory stores instructions executable by at least one of the processors, and the instructions are executed by at least one of the processors, so that at least one of the processors can execute the computer room control method as described above.

[0036] The present invention provides a storage medium that stores computer instructions. When a computer executes the computer instructions, all steps of the above-described computer room control method are executed.

[0037] The present invention determines the independent or coupled operation of the ground source heat pump system, boiler heating system, and refrigeration system of the computer room according to the overall refrigeration heat release and heating heat absorption of the computer room, so as to realize the coordinated management of multiple energy supply systems. At the same time, when the ground source heat pump system operates independently, the number of cold and heat units of the ground source heat pump system is matched according to the cold and heat demands, and the cold and heat units with the number of cold and heat units turned on are turned on. When the refrigeration system operates independently, the number of refrigeration units of the refrigeration system is matched according to the cooling load demand, and the refrigeration units with the number of refrigeration units turned on are turned on. Therefore, the energy consumption of the present invention can avoid wasting energy by turning on too many units while meeting the system requirements. BRIEF DESCRIPTION OF THE DRAWINGS

[0038] Figure 1 is a working flowchart of a computer room control method according to an embodiment of the present invention;

[0039] Figure 2 is a working flowchart of a computer room control method according to another embodiment of the present invention;

[0040] Figure 3 is a schematic diagram of a computer room control system according to the best embodiment of the present invention;

[0041] Figure 4 is a schematic diagram of a computer room control device according to an embodiment of the present invention;

[0042] Figure 5 is a schematic diagram of the hardware structure of an electronic device according to the present invention. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0043] The following further describes the specific embodiments of the present invention with reference to the drawings. The same components are denoted by the same reference numerals. It should be noted that the terms "front", "rear", "left", "right", "upper" and "lower" used in the following description refer to the directions in the drawings, and the terms "inner" and "outer" refer to the directions towards or away from the geometric center of a specific component, respectively.

[0044] As Figure 1 shown is a working flowchart of a computer room control method according to an embodiment of the present invention, including:

[0045] Step S101, determining the independent or coupled operation of the ground source heat pump system, boiler heating system, and refrigeration system of the computer room according to the overall refrigeration heat release and heating heat absorption of the computer room;

[0046] Step S102, when the ground source heat pump system operates independently, match the number of cold and heat units of the ground source heat pump system according to the cooling and heating demands, and turn on the cold and heat units with the matched number of cold and heat units.

[0047] Step S103, when the refrigeration system operates independently, match the number of refrigeration units of the refrigeration system according to the cooling load demand, and turn on the refrigeration units with the matched number of refrigeration units.

[0048] Specifically, the present invention can be applied to an electronic device with processing capabilities.

[0049] First, execute Step S101 to determine whether to operate the ground source heat pump system, boiler heating system, and refrigeration system of the computer room independently or in a coupled manner according to the overall cooling and heat release, and heating and heat absorption of the computer room.

[0050] Specifically, the energy supply system of the computer room includes: a ground source heat pump system, a refrigeration system, and a boiler heating system. In the ground source heat pump system, 1 ground source heat pump + unit waterway electric valve + 1 user-side circulation pump + 1 ground source-side circulation pump are defined as 1 set of cold and heat units. In the boiler heating system, 1 boiler + unit waterway electric valve + 1 user-side circulation pump are defined as 1 set of boiler heating units. In the refrigeration system, 1 refrigeration unit + unit waterway electric valve + 1 user-side circulation pump + 1 cooling-side circulation pump + 1 cooling cooling tower are defined as 1 set of cold and heat units.

[0051] The system has two modes: heating and cooling. The ground source heat pump system and the boiler heating system are used in the heating mode, and the ground source heat pump system and the refrigeration system are used in the cooling mode. According to the hourly load calculation results of HVAC throughout the year, the ground source heat release value during refrigeration and the ground source heat absorption value during heating of the ground source heat pump system are known.

[0052] Therefore, according to the comparison relationship between the overall cooling and heat release, and heating and heat absorption of the computer room, determine how to use the ground source heat pump system, boiler heating system, and refrigeration system.

[0053] Then, if it is determined that the ground source heat pump system operates independently, then execute Step S102 to match the number of cold and heat units of the ground source heat pump system according to the cooling and heating demands, and turn on the cold and heat units with the matched number of cold and heat units. If it is determined that the refrigeration system operates independently, then execute Step S103 to match the number of refrigeration units of the refrigeration system according to the cooling load demand, and turn on the refrigeration units with the matched number of refrigeration units.

[0054] The present invention determines to independently or coupledly operate the ground source heat pump system, boiler heating system, and refrigeration system of the computer room according to the overall refrigeration heat release and heating heat absorption of the computer room, so as to realize the coordinated management of multiple energy supply systems. At the same time, when the ground source heat pump system operates independently, the number of cold and heat units of the ground source heat pump system is matched according to the cold and heat demands, and the cold and heat units with the number of started cold and heat units are started. When the refrigeration system operates independently, the number of refrigeration units of the refrigeration system is matched according to the cooling load demand, and the refrigeration units with the number of started refrigeration units are started. Therefore, the energy consumption of the present invention can avoid wasting energy by starting too many units while meeting the system requirements.

[0055] As Figure 2 shown is a working flowchart of a computer room control method in another embodiment of the present invention, including:

[0056] Step S201, when the refrigeration heat release is greater than the heating heat absorption, then in winter heating, the ground source heat pump system is preferentially used to operate independently for heating. When the heat load of the ground source heat pump system cannot meet the system load demand, the boiler heating system is enabled to operate in coupling with the ground source heat pump system for heating. In summer refrigeration, the ground source heat pump system and the refrigeration system are used to operate in coupling for refrigeration;

[0057] When the refrigeration heat release is less than the heating heat absorption, then in summer refrigeration, the ground source heat pump system is preferentially used to operate independently for heating. When the cooling load of the ground source heat pump system cannot meet the system load demand, the refrigeration system is enabled to operate in coupling with the ground source heat pump system for refrigeration. In winter heating, the ground source heat pump system and the boiler heating system are used to operate in coupling for heating.

[0058] Step S202, when the ground source heat pump system operates independently, obtain the corresponding relationship between the unit load rate and the energy consumption ratio of the cold and heat units of the ground source heat pump system; calculate the unit load rate corresponding to each opening number according to the cold and heat demands; according to the corresponding relationship, calculate the energy consumption ratio corresponding to the unit load rate corresponding to each opening number, and select the opening number corresponding to the unit load rate with the largest energy consumption ratio as the number of started cold and heat units of the ground source heat pump system.

[0059] In one embodiment, the calculating the unit load rate corresponding to each opening number according to the cold and heat demands includes:

[0060] According to historical data, predict the average cold and heat power prediction value within a preset time period;

[0061] Calculate the unit load rate corresponding to each opening number as: Bi = EMRQ 冷热 / (i * EMR 额), where Bi is the unit load factor corresponding to the opening number i, and EMRQ 冷热 is the predicted value of the average cooling and heating power, i is the opening number, and EMR 额 is the rated power of a single cooling and heating unit. When Bi > 1, set Bi = 0.

[0062] Step S203: Turn on the cooling and heating units with the number of cooling and heating units turned on.

[0063] Step S204: When the refrigeration system operates independently, obtain the corresponding relationship between the unit load factor and the energy consumption ratio of the refrigeration units of the refrigeration system; calculate the unit load factor corresponding to each opening number according to the cooling load demand; according to the corresponding relationship, calculate the energy consumption ratio corresponding to the unit load factor corresponding to each opening number, and select the opening number corresponding to the unit load factor with the largest energy consumption ratio as the number of refrigeration units turned on for the refrigeration system.

[0064] In one embodiment, the calculating the unit load factor corresponding to each opening number according to the cooling load demand includes:

[0065] Predict the predicted value of the average cooling power within a preset time period according to historical data;

[0066] Calculate the unit load factor corresponding to each opening number as: Ci = EMRQ 冷 / (i * EMR 额 ), where Ci is the unit load factor corresponding to the opening number i, EMRQ 冷 is the predicted value of the average cooling power, i is the opening number, and EMR 额 is the rated power of a single refrigeration unit. When Ci > 1, set Ci = 0.

[0067] Step S205: Turn on the refrigeration units with the number of refrigeration units turned on.

[0068] Step S206: When the boiler heating system operates independently, match the number of boiler heating units turned on for the boiler heating system according to the heat load demand, and turn on the boiler heating units with the number of boiler heating units turned on.

[0069] Specifically, in this embodiment, according to the characteristics of various energy forms in the computer room, the energy supply system of the computer room is divided into a ground source heat pump system, a refrigeration system, and a boiler heating system. As Figure 3 shown, a distributed control system can be adopted, and 1 set of independent control systems are respectively set for the above three subsystems, defined as a ground source heat pump control module 301, a refrigeration system control module 302, and a boiler heating control module 303. These 3 sets of control systems can control the subsystems to operate independently. In addition, on the basis of the 3 subsystems, a set of centralized control module 304 is set.

[0070] Among them, the centralized control module executes step S201. When the refrigeration heat release is greater than the heating heat absorption, then in winter heating, the ground source heat pump system is preferentially used to operate independently for heating. When the heat load of the ground source heat pump system cannot meet the system load demand, the boiler heating system is enabled to operate in coupling with the ground source heat pump system for heating. In summer refrigeration, the ground source heat pump system and the refrigeration system are used to operate in coupling for refrigeration;

[0071] When the refrigeration heat release is less than the heating heat absorption, then in summer refrigeration, the ground source heat pump system is preferentially used to operate independently for heating. When the cooling load of the ground source heat pump system cannot meet the system load demand, the refrigeration system is enabled to operate in coupling with the ground source heat pump system for refrigeration. In winter heating, the ground source heat pump system and the boiler heating system are used to operate in coupling for heating.

[0072] Specifically, the centralized control module collects overall data, including outdoor temperature and humidity, total power consumption of the machine room, and total cooling and heating capacity on the user side of the machine room. Data interaction is carried out with the ground source heat pump control unit, the refrigeration control unit, and the boiler heating control unit through communication, which can realize the multi-energy coupling scheduling and centralized management of each subsystem. Make the system achieve a safe, stable, energy-saving and efficient operation effect.

[0073] 1. Mode overview: The system has two modes: heating and refrigeration. The ground source heat pump system and the boiler heating system are used in the heating mode, and the ground source heat pump system and the refrigeration system are used in the cooling mode.

[0074] 2. Load prediction: For the total cooling and heating capacity on the user side

[0075] 3. Ground source balance control: According to the hourly load calculation results of HVAC throughout the year, it is known the value of the ground source heat release when the ground source heat pump system is refrigerating and the value of the heat absorption from the ground source when heating.

[0076] When the refrigeration heat release is greater than the heating heat absorption, then the ground source heat pump is preferentially used in winter heating. Only when the heat pump load cannot meet the system load demand, the boiler heating system is enabled. In summer refrigeration, the ground source heat pump system and the refrigeration main unit system are used for coupled refrigeration, and the ground source heat balance rate is adjusted to be less than 10% under the condition of meeting the demand load.

[0077] When the refrigeration heat release is less than the heating heat absorption, then the ground source heat pump is preferentially used in summer refrigeration. Only when the cooling load cannot meet the system load demand, the refrigeration system is enabled for peak shaving. In winter heating, the ground source heat pump system and the boiler heating system are used for coupled heating, and the ground source heat balance rate is adjusted to be less than 10% under the condition of meeting the demand load.

[0078] 4. Multi - energy coupling energy ratio control: Let the total demand for cooling and heating energy in the computer room be EM, and the rated load of the ground - source heat pump system be EMR 额 , the energy output from the ground - source heat pump system is EM1, the energy output from the refrigeration system is EM2, and the energy output from the boiler heating system is EM3.

[0079] (1) Based on the above, when the refrigeration heat release is greater than the heating heat absorption,

[0080] When the system supplies heat:

[0081] If EM ≤ EMR 额 , then EM1 = EM, EM3 = 0;

[0082] If EM > EMR 额 , then EM1 = EMR 额 , EM3 = EM - EM1;

[0083] When the system supplies cooling:

[0084] If EM ≤ EMR 额 , then EM1 = EM, EM2 = 0;

[0085] If EM > EMR 额 , then EM1 = EMR 额 , EM3 = EM - EM1.

[0086] Then, the ground - source heat pump control module can execute step S202 and step S203 to control the ground - source heat pump system. The refrigeration system control module executes step S204 and step S205 to control the refrigeration system, and the boiler heating control module executes step S206 to control the boiler heating system. Among them, step S202, step S204, and step S206 are parallel and are executed according to the corresponding requirements.

[0087] Specifically, in the ground - source heat pump control module, 1 ground - source heat pump + unit water - way electric valve + 1 user - side circulation pump + 1 ground - source side circulation pump are defined as 1 set of cooling - heating units, and 1 - 4 sets of cooling - heating units can be supported according to the actual situation of the project. As a whole, the system monitors the power consumption of the ground - source heat pump system KWR, the user - side cooling capacity EMR1, the user - side heating capacity EMR2, the ground - source cooling capacity EMR3 and heating capacity EMR4, the user - side supply water temperature TR1 and return water temperature TR2, the user - side supply water pressure PR1 and return water pressure TR2, the ground - source side supply water temperature TR3 and return water temperature TR4, and the ground - source side supply water pressure PR3 and return water pressure TR4.

[0088] The control method includes:

[0089] 1. Equipment modeling

[0090] Number N of heating and cooling units: Set the number of heating and cooling units according to the actual project situation.

[0091] Ground-source heat pump: Digital modeling of the equipment is carried out according to the relevant parameters of the actual equipment, mainly including the rated refrigeration power, input power, rated heating power, input power, optimal ground-source temperature, COP values at various load rates, etc.

[0092] Circulation pump: Digital modeling of the circulation pump is carried out according to the actual equipment. The main parameters include rated flow rate, head, rated power, etc.

[0093] 2. Number of operating heating and cooling units: When the ground-source heat pump system operates independently, the system automatically matches the number of operating cold and heat sources according to the heating and cooling demands, achieving the effect of efficient and energy-saving operation while meeting the energy supply requirements. When the ground-source heat pump system is under centralized control with other systems, the number of operating heating and cooling units is coordinated uniformly by the centralized system.

[0094] 3. Calculation of system average heating and cooling power and load rate: Taking 30 minutes as a cycle, the cooling and heating amounts Q1 (unit: KWH) and Q2 (unit: KWH) on the user side are collected.

[0095] Within these 30 minutes, the average required heating and cooling power EMR = (Q1 - Q2) * 2. The average required heating and cooling power for each cycle is stored, and the predicted value EMRQ of the average heating and cooling power for a certain future time period is predicted based on the historical curve. 冷热 . The prediction method can adopt machine learning. The historical data is used as training values and input into the machine learning model to obtain the predicted value EMRQ of the average heating and cooling power for a certain future time period. 冷热 . Or select from the historical data the historical average required heating and cooling power for the same time period as the time period to be predicted and with the outdoor temperature close to that of the time period to be predicted as the predicted value EMRQ of the average heating and cooling power for a certain future time period. 冷热 .

[0096] Total rated power EMR of the system 额总 = N * EMR 额 , where, under the refrigeration condition, EMR 额 is the rated refrigeration power of the heat pump, and under the heating condition, EMR 额 is the rated heating power of the heat pump;

[0097] System load rate B = EMR / EMR 额 .

[0098] 4. Calculation of the number of hot and cold units at system startup: Automatically calculate the corresponding relationship between the unit load rate and the energy consumption ratio of the hot and cold units based on the modeling data of the heat pump unit, for example, calculate the corresponding table of the unit load rate and the energy consumption ratio of the hot and cold units. As an example, let A1, A2, A3, A4, and A5 be the energy consumption ratios when the unit load rates of the hot and cold units are 20%, 40%, 60%, 80%, and 100% respectively. The specific values of A1, A2, A3, A4, and A5 can be obtained from the factory parameters of the hot and cold units. For the heating condition, the energy consumption ratio is represented by Coefficient Of Performance, COP, and for the cooling condition, the energy consumption ratio is represented by Energy Efficiency Ratio, EER.

[0099] Then, calculate the unit load rate corresponding to each opening quantity according to the heating and cooling demands respectively;

[0100] In one embodiment, the calculating the unit load rate corresponding to each opening quantity according to the heating and cooling demands respectively includes:

[0101] According to historical data, predict the predicted value of the average heating and cooling power within a preset time period;

[0102] The unit load rate corresponding to each opening quantity is calculated as: Bi = EMRQ 冷热 / (i * EMR 额 ), where Bi is the unit load rate corresponding to the opening quantity i, EMRQ 冷热 is the predicted value of the average heating and cooling power, i is the opening quantity, and EMR 额 is the rated power of a single hot and cold unit, and when Bi > 1, set Bi = 0.

[0103] Specifically:

[0104] Assume that when one hot and cold unit is turned on to meet the system load, the unit load rate is B1,

[0105] Then B1 = EMRQ / EMR 额 , but when B1 is greater than 1, then B1 = 0;

[0106] Assume that when two hot and cold units are turned on to meet the system load, the unit load rate is B2,

[0107] Then B2 = EMRQ / (2 * EMR 额 ), but when B2 is greater than 1, then B2 = 0;

[0108] Assume that when 3 hot and cold units are turned on to meet the system load, the unit load rate is B3,

[0109] Then B3 = EMRQ / (3 * EMR 额), but when B3 is greater than 1, then B3 = 0;

[0110] And so on, calculate B1, B2, B3, B4, ……, BN.

[0111] This embodiment provides corresponding calculations of the unit load factor and the number of units turned on, so as to obtain the unit load factor corresponding to each number of units turned on.

[0112] After that, according to the corresponding relationship, calculate the energy consumption ratio corresponding to the unit load factor corresponding to each number of units turned on, and select the number of units turned on corresponding to the unit load factor with the largest energy consumption ratio as the number of cold and heat units turned on for the ground source heat pump system.

[0113] Specifically, according to the above corresponding table of unit load factor and energy consumption ratio, look up the energy consumption ratios AB1, AB2, AB3, AB4, ……, ABN corresponding to the load factors of B1, B2, B3, B4, ……, BN. When the unit load factor is not in the table, the data of the corresponding energy consumption ratio can be obtained by interpolation method.

[0114] Then compare AB1, AB2, AB3, AB4, ……, ABN to obtain the maximum value. That is, the energy consumption ratios under different numbers of cold and heat units turned on can be calculated, and the number of units turned on corresponding to the maximum energy consumption ratio is used as the number of cold and heat units turned on for the ground source heat pump system.

[0115] Then execute step S203 to turn on the cold and heat units with the number of cold and heat units turned on.

[0116] Specifically, the internal start-up and shutdown sequence of the cold and heat units: Start-up: Open the unit electric valve, turn on the user-side circulation pump and the ground-source-side circulation pump, and start the ground source heat pump unit. Shutdown: Shut down the ground source heat pump unit, turn off the user-side circulation pump and the ground-source-side circulation pump, and close the unit electric valve.

[0117] In some embodiments, it also includes frequency control of the user-side circulation pump: The frequency of the circulation pump is PID-controlled according to the pressure difference of the user-side pipeline to ensure that the pressure difference of the user-side pipeline is within the target value range, and at the same time consider the minimum frequency. When multiple pumps are running, keep the pump frequencies consistent.

[0118] In some embodiments, it also includes frequency control of the ground-source-side circulation pump: The frequency of the circulation pump is PID-controlled according to the return water temperature of the ground-source side to ensure that the return water temperature of the ground-source side is within the target value range, keep the unit running efficiently, and at the same time consider the minimum frequency. When multiple pumps are running, keep the pump frequencies consistent.

[0119] In the refrigeration system control module, one refrigeration unit + the waterway electric valve of the unit + one user-side circulation pump + one cooling-side circulation pump + one cooling cooling tower are defined as one set of cooling and heating units, and M sets of cooling and heating units can be supported according to the actual situation of the project. As a whole, the system monitors the power consumption KWR of the refrigeration system, the cooling capacity EMR1 on the user side, the supply water temperature TR1 and the return water temperature TR2 on the user side, the supply water pressure PR1 and the return water pressure TR2 on the user side, and the supply water temperature TR3 and the return water temperature TR4 on the cooling side.

[0120] The control method includes:

[0121] 1. Equipment modeling

[0122] Number of refrigeration units M: Set the number of refrigeration units according to the actual situation of the project

[0123] Refrigeration unit: Carry out digital modeling of the equipment according to the relevant parameters of the actual equipment, mainly including the rated refrigeration power and input power, the optimal cooling return water temperature, the COP value at each load rate, etc.

[0124] Circulation pump: Carry out digital modeling of the circulation pump according to the actual equipment, and the main parameters include rated flow, head, rated power, etc.

[0125] 2. Number of refrigeration units started: When the refrigeration system operates independently, the system automatically matches the number of cold and heat sources started according to the cooling load demand, and achieves the effect of efficient and energy-saving operation under the condition of meeting the energy supply demand. When the refrigeration system is centrally controlled with other systems, the number of cooling and heating units started is uniformly coordinated by the central system.

[0126] 3. Calculation of the average refrigeration power and load rate of the system: Taking 30 minutes as a cycle, collect the cooling and heating amounts Q1 (unit: KWH) and Q2 (unit: KWH) on the user side.

[0127] During these 30 minutes, the average required cooling power EMR = (Q1 - Q2) * 2. Store the average required cooling power of each cycle, and predict the average cooling power prediction value EMRQ for a certain future time period according to the historical curve. 冷 . The prediction method can adopt the machine learning method, input the historical data as the training value into the machine learning model, and then obtain the average cooling power prediction value EMRQ for a certain future time period. 冷 . Or select the historical average required cooling power in the same time period as the time period to be predicted from the historical data, and with the outdoor temperature close to the outdoor temperature of the time period to be predicted as the average cooling power prediction value EMRQ for a certain future time period. 冷 .

[0128] Total rated power of the system EMR 额总 = N * Rated refrigeration power of the chiller EMR 额 .

[0129] System load rate B = EMR / EMR 额 。

[0130] 4. Calculation of the number of refrigeration units at system startup: Automatically calculate the corresponding relationship between the unit load rate and the energy consumption ratio of the refrigeration units based on the modeling data of the refrigeration unit group, for example, calculate the corresponding table of the unit load rate and the energy consumption ratio of the refrigeration units. As an example, let D1, D2, D3, D4, and D5 be the energy consumption ratios when the unit load rates are 20%, 40%, 60%, 80%, and 100% respectively. Here, the energy consumption ratio can be represented by EER.

[0131] Then, calculate the unit load rate corresponding to each opening quantity according to the cooling load demand.

[0132] In one embodiment, the calculating the unit load rate corresponding to each opening quantity according to the cooling load demand includes:

[0133] Predict the average cold power prediction value within a preset time period based on historical data;

[0134] Calculate the unit load rate corresponding to each opening quantity as: Ci = EMRQ 冷 / (i * EMR 额 ), where Ci is the unit load rate corresponding to the opening quantity i, EMRQ 冷 is the average cold power prediction value, i is the opening quantity, and EMR 额 is the rated power of a single refrigeration unit, and when Ci > 1, set Ci = 0.

[0135] Specifically:

[0136] Assume that when one refrigeration unit is turned on to meet the system load, the unit load rate is C1.

[0137] Then C1 = EMRQ / EMR 额 , but when C1 is greater than 1, then C1 = 0;

[0138] Assume that when two refrigeration units are turned on to meet the system load, the unit load rate is C2.

[0139] Then C2 = EMRQ / (2 * EMR 额 ), but when C2 is greater than 1, then C2 = 0;

[0140] Assume that when three refrigeration units are turned on to meet the system load, the unit load rate is C3.

[0141] Then C3 = EMRQ / (3 * EMR 额 ), but when C3 is greater than 1, then C3 = 0;

[0142] And so on, calculate C1, C2, C3, C4, ……, CN.

[0143] This embodiment provides a corresponding calculation of the unit load factor and the number of units turned on, so as to obtain the unit load factor corresponding to each number of units turned on.

[0144] After that, according to the corresponding relationship, calculate the energy consumption ratio corresponding to the unit load factor of each number of units turned on, and select the number of units turned on corresponding to the unit load factor with the largest energy consumption ratio as the number of refrigeration units turned on in the refrigeration system.

[0145] Specifically, according to the above corresponding table of unit load factor and energy consumption ratio, look up the energy consumption ratios DC1, DC2, DC3, DC4, ……, DCN at the corresponding load factors for C1, C2, C3, C4, ……, CN load factors. When the unit load factor is not in the table, the data of the corresponding energy consumption ratio can be obtained by interpolation method.

[0146] Then compare DC1, DC2, DC3, DC4, ……, DCN to obtain the maximum value. That is, the energy consumption ratios under different numbers of refrigeration units turned on can be calculated, and the number of units turned on corresponding to the maximum energy consumption ratio is used as the number of refrigeration units turned on in the refrigeration system.

[0147] Then execute step S205 to turn on the refrigeration units with the number of refrigeration units turned on.

[0148] Specifically, the internal switching sequence of the refrigeration unit: When starting up: Open the unit electric valve, turn on the user-side circulation pump, the cooling circulation pump and the cooling tower, and start the refrigeration unit. When shutting down: Shut down the refrigeration unit, turn off the user-side circulation pump, the cooling circulation pump and the cooling tower, and close the unit electric valve.

[0149] In some embodiments, it also includes frequency control of the user-side circulation pump: The frequency of the circulation pump is PID-controlled according to the pressure difference of the user-side pipeline to ensure that the pressure difference of the user-side pipeline is within the target value range, and the minimum frequency is considered at the same time. When multiple pumps are running, keep the pump frequencies consistent.

[0150] In some embodiments, it also includes frequency control of the cooling tower: The frequency of the cooling tower is PID-controlled according to the temperature of the cooling return water to ensure that the temperature of the cooling return water is within the target value range, keep the unit running efficiently, and the minimum frequency is considered at the same time. When multiple pumps are running, keep the pump frequencies consistent.

[0151] In the boiler heating control module, one boiler + the waterway electric valve of the unit + one user-side circulation pump are defined as one set of boiler heating units, and K sets of heating and cooling units can be supported according to the actual situation of the project. As a whole, the system monitors the power consumption of the refrigeration system KWR, the heat supply of the user side EMR1, the supply water temperature TR1 and the return water temperature TR2 of the user side, the supply water pressure PR1 and the return water pressure TR2 of the user side.

[0152] The control method includes:

[0153] 1. Equipment modeling

[0154] The number of boiler heating units K: Set the number of boiler heating units according to the actual situation of the project.

[0155] 2. The number of boiler heating units started: When the boiler heating system operates independently, step S206 is executed. The system automatically matches the number of boiler heating units started according to the heat load demand. Under the condition of meeting the energy supply demand, the effect of efficient energy-saving operation is achieved. Specifically, select the minimum number of boiler heating units that can meet the system heat load demand as the number of boiler heating units started. When the boiler heating system is centrally controlled with other systems, the number of boiler heating units started is coordinated by the central system.

[0156] 3. The boiler heating units meet the heating demand with the least number of boiler units according to the heat supply on the user side of the boiler and in combination with the rated heat supply of the boiler. When the boiler operates at full load and still cannot meet the heat supply, additional heating units are added.

[0157] 4. The internal start-up and shutdown sequence of the boiler heating units: Start-up: Open the unit electric valve, open the user-side circulation pump, and start the heating boiler. Shutdown: Shut down the heating boiler, shut down the user-side circulation pump, and close the unit electric valve.

[0158] This embodiment conducts subsystem and centralized management control for the multi-energy coupling high-efficiency computer room composed of the ground source heat pump system, the refrigeration system, and the boiler system. The control system realizes technical features such as ground source balance, climate compensation, interlock control, and energy efficiency management. At the same time, by controlling the opening of appropriate heating and cooling units, refrigeration units, and boiler heating units, energy is saved.

[0159] Based on the same inventive concept, as Figure 4 shown in the schematic diagram of a computer room control device according to an embodiment of the present invention, including:

[0160] The total control module 401 is used to determine the independent or coupled operation of the ground source heat pump system, the boiler heating system, and the refrigeration system of the computer room according to the total refrigeration heat release and heating heat absorption of the computer room as a whole;

[0161] The ground source heat pump system control module 402 is used to, when the ground source heat pump system operates independently, match the number of cold and heat units started up by the ground source heat pump system according to the cooling and heating demands, and start up the cold and heat units with the number of cold and heat units started up.

[0162] The refrigeration system control module 403 is used to, when the refrigeration system operates independently, match the number of refrigeration units started up by the refrigeration system according to the cooling load demand, and start up the refrigeration units with the number of refrigeration units started up.

[0163] The present invention determines to independently or coupledly operate the ground source heat pump system, boiler heating system, and refrigeration system of the computer room according to the overall cooling heat release amount and heating heat absorption amount of the computer room, so as to realize the coordinated management of multiple energy supply systems. At the same time, when the ground source heat pump system operates independently, the number of cold and heat units started up by the ground source heat pump system is matched according to the cooling and heating demands, and the cold and heat units with the number of cold and heat units started up are started up. When the refrigeration system operates independently, the number of refrigeration units started up by the refrigeration system is matched according to the cooling load demand, and the refrigeration units with the number of refrigeration units started up are started up. Therefore, the energy consumption of the present invention can avoid wasting energy by starting up too many units while meeting the system demand.

[0164] In one embodiment, the determining to independently or coupledly operate the ground source heat pump system, boiler heating system, and refrigeration system of the computer room according to the overall cooling heat release amount and heating heat absorption amount of the computer room includes:

[0165] When the cooling heat release amount is greater than the heating heat absorption amount, then in winter for heating, the ground source heat pump system is preferentially used to operate independently for heating. When the heat load of the ground source heat pump system cannot meet the system load demand, the boiler heating system is enabled to operate in coupling with the ground source heat pump system for heating. In summer for refrigeration, the ground source heat pump system and the refrigeration system are used to operate in coupling for refrigeration;

[0166] When the cooling heat release amount is less than the heating heat absorption amount, then in summer for refrigeration, the ground source heat pump system is preferentially used to operate independently for heating. When the cooling load of the ground source heat pump system cannot meet the system load demand, the refrigeration system is enabled to operate in coupling with the ground source heat pump system for refrigeration. In winter for heating, the ground source heat pump system and the boiler heating system are used to operate in coupling for heating.

[0167] In one embodiment, the matching the number of cold and heat units started up by the ground source heat pump system according to the cooling and heating demands includes:

[0168] Obtain the corresponding relationship between the unit load factor and the energy consumption ratio of the cold and heat units of the ground source heat pump system;

[0169] Calculate the unit load factor corresponding to each start-up number according to the cooling and heating demands;

[0170] According to the corresponding relationship, calculate the energy consumption ratio corresponding to the unit load rate for each opening quantity, and select the opening quantity corresponding to the unit load rate with the largest energy consumption ratio as the start-up quantity of the heating and cooling units of the ground source heat pump system.

[0171] In one embodiment, the calculating the unit load rate corresponding to each opening quantity according to the heating and cooling demands includes:

[0172] Predict the predicted value of the average heating and cooling power within a preset time period according to historical data;

[0173] The calculation of the unit load rate corresponding to each opening quantity is: Bi = EMRQ 冷热 / (i * EMR 额 ), where Bi is the unit load rate corresponding to the opening quantity i, EMRQ 冷热 is the predicted value of the average heating and cooling power, i is the opening quantity, and EMR 额 is the rated power of a single heating and cooling unit, and when Bi > 1, set Bi = 0.

[0174] In one embodiment, the matching the start-up quantity of the refrigeration units of the refrigeration system according to the cooling load demand includes:

[0175] Obtain the corresponding relationship between the unit load rate and the energy consumption ratio of the refrigeration units of the refrigeration system;

[0176] Calculate the unit load rate corresponding to each opening quantity according to the cooling load demand;

[0177] According to the corresponding relationship, calculate the energy consumption ratio corresponding to the unit load rate for each opening quantity, and select the opening quantity corresponding to the unit load rate with the largest energy consumption ratio as the start-up quantity of the refrigeration units of the refrigeration system.

[0178] In one embodiment, the calculating the unit load rate corresponding to each opening quantity according to the cooling load demand includes:

[0179] Predict the predicted value of the average cooling power within a preset time period according to historical data;

[0180] The calculation of the unit load rate corresponding to each opening quantity is: Ci = EMRQ 冷 / (i * EMR 额 ), where Ci is the unit load rate corresponding to the opening quantity i, EMRQ 冷 is the predicted value of the average cooling power, i is the opening quantity, and EMR 额 is the rated power of a single refrigeration unit, and when Ci > 1, set Ci = 0.

[0181] In one of the embodiments, it further includes a boiler heating system control module, which is used for:

[0182] When the boiler heating system operates independently, according to the heat load demand, match the number of started boiler heating units of the boiler heating system, and start the boiler heating units with the number of started boiler heating units.

[0183] Regarding the device in the above embodiments, the specific ways in which each module performs operations have been described in detail in the embodiments related to the method, and will not be elaborated here.

[0184] As Figure 5 shown in the following is a schematic diagram of the hardware structure of an electronic device according to the present invention, including:

[0185] At least one processor 501; and,

[0186] A memory 502 communicatively connected to at least one of the processors 501; wherein,

[0187] The memory 502 stores instructions executable by at least one of the processors. The instructions are executed by at least one of the processors, so that at least one of the processors can execute the computer room control method as described above.

[0188] Figure 5 Taking one processor 501 as an example.

[0189] The electronic device may further include: an input device 503 and a display device 504.

[0190] The processor 501, the memory 502, the input device 503 and the display device 504 may be connected by a bus or other means. In the figure, it is taken as an example of being connected by a bus.

[0191] The memory 502, as a non-volatile computer-readable storage medium, can be used to store non-volatile software programs, non-volatile computer-executable programs and modules, such as the program instructions / modules corresponding to the computer room control method in the embodiments of the present application. For example, Figure 1 , Figure 2 The method flow shown. The processor 501 executes various functional applications and data processing by running the non-volatile software programs, instructions and modules stored in the memory 502, that is, implements the computer room control method in the above embodiments.

[0192] The memory 502 may include a program storage area and a data storage area. Among them, the program storage area can store an operating system and application programs required for at least one function; the data storage area can store data created according to the use of the computer room control method, etc. In addition, the memory 502 may include high-speed random access memory and may also include non-volatile memory, such as at least one magnetic disk storage device, a flash memory device, or other non-volatile solid-state storage devices. In some embodiments, the memory 502 may optionally include a memory remotely set relative to the processor 501, and these remote memories can be connected to the device executing the computer room control method through a network. Examples of the above network include but are not limited to the Internet, an enterprise intranet, a local area network, a mobile communication network, and combinations thereof.

[0193] The input device 503 can receive input user clicks and generate signal inputs related to user settings and function control of the computer room control method. The display device 504 may include a display screen and other display devices.

[0194] When the one or more modules are stored in the memory 502 and run by the one or more processors 501, they execute the computer room control method in any of the above method embodiments.

[0195] The present invention determines the independent or coupled operation of the ground source heat pump system, the boiler heating system, and the refrigeration system of the computer room according to the overall refrigeration heat release and heating heat absorption of the computer room, so as to realize the coordinated management of multiple energy supply systems. At the same time, when the ground source heat pump system operates independently, the number of on / off cold and heat units of the ground source heat pump system is matched according to the cold and heat demands, and the cold and heat units with the number of on / off cold and heat units are turned on. When the refrigeration system operates independently, the number of on / off refrigeration units of the refrigeration system is matched according to the cooling load demand, and the refrigeration units with the number of on / off refrigeration units are turned on. Therefore, the energy consumption of the present invention can avoid wasting energy by turning on too many units while meeting the system requirements.

[0196] An embodiment of the present invention provides a storage medium that stores computer instructions, which are used to execute all steps of the computer room control method as described above when the computer executes the computer instructions.

[0197] In the context of the present disclosure, a storage medium may be a tangible medium that can contain or store a program for use by or in connection with an instruction execution system, apparatus, or device. The storage medium may be a machine-readable signal medium or a machine-readable storage medium. Optionally, the storage medium may be a non-transitory computer-readable storage medium. For example, the non-transitory computer-readable storage medium may be a ROM, a random access memory (RAM), a compact disc read-only memory (CD-ROM), magnetic tape, a floppy disk, and an optical data storage device, etc.

[0198] The above-described embodiments merely represent several implementation manners of the present invention. The description thereof is relatively specific and detailed, but it should not be construed as a limitation on the scope of the patent of the present invention. It should be noted that for those of ordinary skill in the art, without departing from the concept of the present invention, several modifications and improvements can still be made, and these all belong to the protection scope of the present invention. Therefore, the protection scope of the patent of the present invention shall be subject to the appended claims.

Claims

1. A machine room control method, characterized in that, Including: Determine to independently or coupledly operate the ground source heat pump system, boiler heating system, and refrigeration system of the computer room according to the overall refrigeration heat release and heating heat absorption of the computer room; When the ground source heat pump system operates independently, match the number of on / off cold and heat units of the ground source heat pump system according to the cooling and heating demands, and turn on the cold and heat units with the number of on / off cold and heat units; When the refrigeration system operates independently, match the number of on / off refrigeration units of the refrigeration system according to the cooling load demand, and turn on the refrigeration units with the number of on / off refrigeration units; The matching of the number of on / off cold and heat units of the ground source heat pump system according to the cooling and heating demands includes: Obtain the corresponding relationship between the unit load rate and energy consumption ratio of the cold and heat units of the ground source heat pump system; Calculate the unit load rate corresponding to each opening number according to the cooling and heating demands; According to the corresponding relationship, calculate the energy consumption ratio corresponding to the unit load rate corresponding to each opening number, and select the opening number corresponding to the unit load rate with the maximum energy consumption ratio as the number of on / off cold and heat units of the ground source heat pump system; The calculating of the unit load rate corresponding to each opening number according to the cooling and heating demands includes: Predict the average cooling and heating power prediction value within a preset time period according to historical data; The unit load factor corresponding to each opening quantity is calculated as: Bi = EMRQ 冷热 / (i * EMR 额 ), where Bi is the unit load factor corresponding to the opening quantity i, EMRQ 冷热 is the predicted value of the average cooling and heating power, i is the opening quantity, and EMR 额 is the rated power of a single cooling and heating unit, and when Bi > 1, Bi is set to 0; The matching of the number of on / off refrigeration units of the refrigeration system according to the cooling load demand includes: Obtain the corresponding relationship between the unit load rate and energy consumption ratio of the refrigeration units of the refrigeration system; Calculate the unit load rate corresponding to each opening number according to the cooling load demand; According to the corresponding relationship, calculate the energy consumption ratio corresponding to the unit load rate corresponding to each opening number, and select the opening number corresponding to the unit load rate with the maximum energy consumption ratio as the number of on / off refrigeration units of the refrigeration system; The calculating of the unit load rate corresponding to each opening number according to the cooling load demand includes: Predict the average cooling power prediction value within a preset time period according to historical data; The unit load factor corresponding to each opening quantity is calculated as: Ci = EMRQ 冷 / (i * EMR 额 ), where Ci is the unit load factor corresponding to the opening quantity i, EMRQ 冷 is the predicted value of the average cooling power, i is the opening quantity, and EMR 额 is the rated power of a single refrigeration unit, and when Ci > 1, set Ci = 0.

2. The computer room control method according to claim 1, characterized in that The determining to independently or coupledly operate the ground source heat pump system, boiler heating system, and refrigeration system of the computer room according to the overall refrigeration heat release and heating heat absorption of the computer room includes: When the refrigeration heat release is greater than the heating heat absorption, then during winter heating, preferentially use the ground source heat pump system to operate independently for heating. When the heat load of the ground source heat pump system cannot meet the system load demand, then enable the boiler heating system to be coupled with the ground source heat pump system for heating. During summer refrigeration, use the ground source heat pump system and the refrigeration system to be coupled for refrigeration; When the refrigeration heat release is less than the heating heat absorption, then during summer refrigeration, preferentially use the ground source heat pump system to operate independently for heating. When the cold load of the ground source heat pump system cannot meet the system load demand, then enable the refrigeration system to be coupled with the ground source heat pump system for refrigeration. During winter heating, use the ground source heat pump system and the boiler heating system to be coupled for heating.

3. The machine room control method according to any one of claims 1 to 2, characterized in that, It also includes: When the boiler heating system operates independently, match the number of on / off boiler heating units of the boiler heating system according to the heat load demand, and turn on the boiler heating units with the number of on / off boiler heating units.

4. A computer room control device, characterized in that, Including: The total control module is used to determine the independent or coupled operation of the ground source heat pump system, boiler heating system, and refrigeration system in the computer room according to the cooling heat release amount and heating heat absorption amount of the overall computer room. The ground source heat pump system control module is used to, when the ground source heat pump system operates independently, match the number of cold and heat units started by the ground source heat pump system according to the cold and heat demands, and start the cold and heat units with the number of cold and heat units started. The refrigeration system control module is used to, when the refrigeration system operates independently, match the number of refrigeration units started by the refrigeration system according to the cooling load demand, and start the refrigeration units with the number of refrigeration units started. The matching of the number of cold and heat units started by the ground source heat pump system according to the cold and heat demands includes: Obtaining the corresponding relationship between the unit load factor and energy consumption ratio of the cold and heat units of the ground source heat pump system. Calculating the unit load factor corresponding to each start number according to the cold and heat demands. According to the corresponding relationship, calculating the energy consumption ratio corresponding to the unit load factor corresponding to each start number, and selecting the start number corresponding to the unit load factor with the largest energy consumption ratio as the number of cold and heat units started by the ground source heat pump system. The calculating of the unit load factor corresponding to each start number according to the cold and heat demands includes: Predicting the average cold and heat power prediction value within a preset time period according to historical data. The unit load factor corresponding to each opening quantity is calculated as: Bi = EMRQ 冷热 / (i * EMR 额 ), where Bi is the unit load factor corresponding to the opening quantity i, EMRQ 冷热 is the predicted value of the average cooling and heating power, i is the opening quantity, and EMR 额 is the rated power of a single cooling and heating unit. And when Bi > 1, set Bi = 0; The matching of the number of refrigeration units started by the refrigeration system according to the cooling load demand includes: Obtaining the corresponding relationship between the unit load factor and energy consumption ratio of the refrigeration units of the refrigeration system. Calculating the unit load factor corresponding to each start number according to the cooling load demand. According to the corresponding relationship, calculating the energy consumption ratio corresponding to the unit load factor corresponding to each start number, and selecting the start number corresponding to the unit load factor with the largest energy consumption ratio as the number of refrigeration units started by the refrigeration system. The calculating of the unit load factor corresponding to each start number according to the cooling load demand includes: Predicting the average cooling power prediction value within a preset time period according to historical data. The unit load factor corresponding to each opening quantity is calculated as: Ci = EMRQ 冷 / (i * EMR 额 ), where Ci is the unit load factor corresponding to the opening quantity i, EMRQ 冷 is the average cooling power prediction value, i is the opening quantity, and EMR 额 is the rated power of a single refrigeration unit, and when Ci > 1, set Ci = 0.

5. An electronic device, characterized in that, including: At least one processor; and, A memory communicatively connected to at least one of the processors; wherein, The memory stores instructions executable by at least one of the processors, and the instructions are executed by at least one of the processors so that at least one of the processors can execute the computer room control method according to any one of claims 1 to 3.

6. A storage medium, characterized in that, The storage medium stores computer instructions, and when the computer executes the computer instructions, it is used to execute all steps of the computer room control method according to any one of claims 1 to 3.

Images